The best tension member section will be as:
Double – angle section on opposite side of gusset plate
In steel structures, tension members are structural elements designed to carry tensile loads, which are forces that pull on the member, tending to stretch it. The efficiency of a tension member section depends on how effectively the cross-sectional area is utilized to resist the load and how well the load is transferred into the member, especially at connections.
Let's look at the common sections used as tension members and their characteristics:
Considering the effectiveness in load transfer and minimization of shear lag, the double – angle section connected on opposite sides of a gusset plate is generally considered the best option among the choices provided for a tension member. This configuration ensures that the maximum possible area of the section contributes to resisting the tensile load, leading to higher efficiency and strength compared to single angles or channel sections connected in ways that induce significant shear lag.
A single angle in tension is connected by one leg only. If the areas of connecting and outstanding legs are respectively a and b, then what is the net effective area of the angle?
A) \(a-\frac{b}{1+0.35\times\frac{b}{a}}\)
B) \(a+\frac{b}{1+0.35\times\frac{b}{a}}\)
C) \(a-\frac{b}{1+0.20\times\frac{b}{a}}\)
D) \(a+\frac{b}{1+0.20\times\frac{b}{a}}\)
The net area of round bars to resist the tension, is the area of the cross-section at
The following are the statements about lug angle used to connect heavily loaded tension member to gusset plates.
(i) The length of end connection is reduced
(ii) By using lug angles there will be saving in the gusset plate
(iii) Cost of connection increases due to additional fasteners and angle required.
A steel plate is 300 mm wide and 10 mm thick. It has one rivet of nominal diameter 18 mm. The net sectional area of the plate is
Which of the following failure is not a type of failure in tension members in steel structures?